NEC-Diff: Noise-Robust Event-RAW Complementary Diffusion for Seeing Motion in Extreme Darkness
Haoyue Liu, Jinghan Xu, Luxin Feng, Hanyu Zhou, Haozhi Zhao, Yi Chang, Luxin Yan

TL;DR
NEC-Diff introduces a diffusion-based framework that effectively combines noisy event data and RAW images to reconstruct high-quality scenes in extreme low-light conditions, addressing noise and texture loss issues.
Contribution
The paper presents a novel noise-robust event-RAW hybrid diffusion method with physics-driven denoising and adaptive feature fusion for low-light imaging.
Findings
Outperforms existing methods in extremely low-light scenarios
Constructed the REAL dataset with 47,800 aligned low-light images and events
Demonstrates high-fidelity scene reconstruction in darkness down to 0.001 lux
Abstract
High-quality imaging of dynamic scenes in extremely low-light conditions is highly challenging. Photon scarcity induces severe noise and texture loss, causing significant image degradation. Event cameras, featuring a high dynamic range (120 dB) and high sensitivity to motion, serve as powerful complements to conventional cameras by offering crucial cues for preserving subtle textures. However, most existing approaches emphasize texture recovery from events, while paying little attention to image noise or the intrinsic noise of events themselves, which ultimately hinders accurate pixel reconstruction under photon-starved conditions. In this work, we propose NEC-Diff, a novel diffusion-based event-RAW hybrid imaging framework that extracts reliable information from heavily noisy signals to reconstruct fine scene structures. The framework is driven by two key insights: (1) combining the…
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Taxonomy
TopicsRandom lasers and scattering media · Advanced Memory and Neural Computing · Image Enhancement Techniques
